Comparison be quiet! Dark Power 14 BP020 vs be quiet! Dark Power 13 BN335
Add to comparison | ![]() | ![]() |
|---|---|---|
| be quiet! Dark Power 14 BP020 | be quiet! Dark Power 13 BN335 | |
| Compare prices 2 | Compare prices 3 | |
| TOP sellers | ||
| Power | 1000 W | 1000 W |
| Form factor | ATX | ATX |
Specs | ||
| PFC | active | active |
| Efficiency | 94 % | 95 % |
| Cooling system | semi-passive | active |
| Fan size | 135 mm | 135 mm |
| Fan bearing | hydrodynamic | hydrodynamic |
| Certification | 80+ Titanium | 80+ Titanium |
| Cybenetics Efficiency | Titanium | |
| Cybenetics Noise | A + | |
| ATX12V version | 3.1 | 3 |
| EPS12V version | 2.92 | 2.92 |
Power connectors | ||
| MB/CPU power supply | 24+8+8(4+4) pin | 24+8+8(4+4) pin |
| SATA | 13 | 13 |
| MOLEX | 2 | 2 |
| PCIe 8pin (6+2) | 4 | 4 |
| PCIe 16pin | 1 pcs | 1 pcs |
| Cable system | modular | modular |
| Braided wires | ||
Cable length | ||
| MB | 600 mm | 600 mm |
| CPU | 700 mm | 700 mm |
| SATA | 600 mm | 750 mm |
| MOLEX | 900 mm | 900 mm |
| PCIe | 600 mm | 600 mm |
Max. power | ||
| +3.3V | 25 А | 25 А |
| +5V | 24 А | 25 А |
| +12V1 | 33 А | 32 А |
| +12V2 | 33 А | 32 А |
| +12V3 | 40 А | 40 А |
| +12V4 | 40 А | 40 А |
| -12V | 0.5 А | 0.5 А |
| +5Vsb | 3 А | 3 А |
| +12V | 996 W | 996 W |
| +3.3V +5V | 120 W | 125 W |
General | ||
| Over voltage protection (OVP) | ||
| Over power protection (OPP) | ||
| Short circuit protection (SCP) | ||
| Protection | OTP, OCP, UVP, SIP | OTP, OCP, UVP, SIP |
| Noise level | 18 dB | 26 dB |
| Manufacturer's warranty | 10 years | 10 years |
| Dimensions (HxWxD) | 86x150x175 mm | 86x150x170 mm |
| Weight | 2.2 kg | 2.03 kg |
| Added to E-Catalog | november 2025 | february 2023 |
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Glossary
Efficiency
Efficiency, in this case — the ratio of the power of the power supply (see "Power") to its power consumption. The higher the efficiency, the more efficient the power supply, the less energy it consumes from the network at the same output power, and the cheaper it is to operate. Efficiency may differ depending on the load; the characteristics can indicate both the minimum efficiency and its value at an average load (50%).
It should be noted that compliance with one or another level of 80PLUS efficiency directly depends on this indicator (for more details, see "Certificate").
It should be noted that compliance with one or another level of 80PLUS efficiency directly depends on this indicator (for more details, see "Certificate").
Cooling system
— Active cooling system. Uses a fan that constantly operates to remove heat from internal components. Unlike passive cooling, the active system provides better heat dissipation and stability under high loads, preventing overheating. However, it creates noise. To eliminate this, fans in such power supplies can have dynamic speed control (AFC – Automatic Fan Control), reducing speed at low power consumption.
— Semi-passive. Active cooling systems with automatic fan shutdown in situations where the load on the power supply is low and heat generation is reduced. Let us remind you that systems of this type are more efficient than passive ones, but they consume additional energy and create noise during operation. Accordingly, at low loads, when intensive cooling is not required, it is wiser to turn off the fans — this saves energy and reduces the noise level.
— Passive(radiators). Compared to fans, radiators have a number of advantages: for example, they do not create any noise and do not require their own power supply (thus reducing overall energy consumption). On the other hand, they are significantly less efficient, as a result — the power of power supplies with passive cooling does not exceed 600 W. In addition, such power supplies are quite expensive.
— Semi-passive. Active cooling systems with automatic fan shutdown in situations where the load on the power supply is low and heat generation is reduced. Let us remind you that systems of this type are more efficient than passive ones, but they consume additional energy and create noise during operation. Accordingly, at low loads, when intensive cooling is not required, it is wiser to turn off the fans — this saves energy and reduces the noise level.
— Passive(radiators). Compared to fans, radiators have a number of advantages: for example, they do not create any noise and do not require their own power supply (thus reducing overall energy consumption). On the other hand, they are significantly less efficient, as a result — the power of power supplies with passive cooling does not exceed 600 W. In addition, such power supplies are quite expensive.
Cybenetics Efficiency
Cybenetics Efficiency is a power supply unit (PSU) energy efficiency certification system that serves as an alternative to the 80 PLUS standard. It is more accurate as it considers efficiency at various load levels (10%, 20%, 50%, 100%) and at different input voltages (115V, 230V). The labeling of this system is identical to 80 PLUS:
Bronze — overall efficiency from 82% to 85% at 115V input voltage and from 84% to 87% at 230V;
Silver — 85 – 87% and 87 – 89% respectively;
Gold — from 87% to 89% (115V) and from 89% to 91% (230V);
Platinum — 89 – 91% at 115V and 91 – 93% at 230V;
Titanium — 91 – 93% (115V) and 93 – 95% (230V);
Diamond — ≥ 93/95%.
Bronze — overall efficiency from 82% to 85% at 115V input voltage and from 84% to 87% at 230V;
Silver — 85 – 87% and 87 – 89% respectively;
Gold — from 87% to 89% (115V) and from 89% to 91% (230V);
Platinum — 89 – 91% at 115V and 91 – 93% at 230V;
Titanium — 91 – 93% (115V) and 93 – 95% (230V);
Diamond — ≥ 93/95%.
Cybenetics Noise
The Cybenetics Lambda Certification System evaluates the noise levels of power supply units (PSUs), providing consumers with information about their acoustic characteristics. As a result, you can rely not only on the efficiency of the PSU but also on its noise level. Cybenetics Lambda certification levels include:
Standard — from 40 dB(A) to 45 dB(A) – noticeable noise;
Standard+ — from 35 dB(A) to 40 dB(A) – noticeable noise;
Standard++ — from 30 dB(A) to 35 dB(A) – moderate noise;
A- — from 25 dB(A) to 30 dB(A) – moderately quiet;
A — from 20 dB(A) to 25 dB(A) – quiet;
A+ — from 15 dB(A) to 20 dB(A) – very quiet;
A++ — less than 15 dB(A) – nearly silent.
Standard — from 40 dB(A) to 45 dB(A) – noticeable noise;
Standard+ — from 35 dB(A) to 40 dB(A) – noticeable noise;
Standard++ — from 30 dB(A) to 35 dB(A) – moderate noise;
A- — from 25 dB(A) to 30 dB(A) – moderately quiet;
A — from 20 dB(A) to 25 dB(A) – quiet;
A+ — from 15 dB(A) to 20 dB(A) – very quiet;
A++ — less than 15 dB(A) – nearly silent.
ATX12V version
A standard for power supplies that supplements the ATX specifications regarding power supply along the 12 V line. Introduced into use since the time of the Intel Pentium 4 processor. In the first series of the standard, the +5 V line was mainly used; from version 2.0, the +12 V line was introduced to fully power the components computer. Also in the second generation, a 24-pin power connector appeared, used in most modern motherboards.
+5V
The maximum current that the PSU is capable of issuing + 5V to the power line. For more information about power lines in general, see "+3.3V". Also note here that + 5V power, in addition to connectors for motherboards (for 20 and 24 pins), is also found in Molex and SATA plugs, as well as some other specific types of connectors.
+12V1
The maximum current the PSU can deliver on the first +12V power line.
For more information on power lines in general, see the "+3.3V" section. Here, it is worth mentioning that 12V is the most popular voltage among computer power connectors. It is used in almost all such connectors (with few exceptions), and some plugs (for example, additional PCI-E power with 6 or 8 connectors) use only 12-volt lines — specifically in the +12V format. The division of +12V power into several separate lines is done for safety reasons — to reduce the current going through each individual wire and thus prevent excessive load and overheating of the wiring. However, some manufacturers do not specify the maximum current for individual +12V lines and provide only the overall value in the specifications; in such cases, this number is indicated in this section.
For more information on power lines in general, see the "+3.3V" section. Here, it is worth mentioning that 12V is the most popular voltage among computer power connectors. It is used in almost all such connectors (with few exceptions), and some plugs (for example, additional PCI-E power with 6 or 8 connectors) use only 12-volt lines — specifically in the +12V format. The division of +12V power into several separate lines is done for safety reasons — to reduce the current going through each individual wire and thus prevent excessive load and overheating of the wiring. However, some manufacturers do not specify the maximum current for individual +12V lines and provide only the overall value in the specifications; in such cases, this number is indicated in this section.
+12V2
The maximum current that the PSU can deliver on the second +12V power rail.
For more information on power rails in general, see the section "+3.3V". Here, it is worth mentioning that 12V is the most popular voltage among computer power connectors. It is used in almost all such connectors (with a few exceptions), and some plugs (such as the additional PCI-E power with 6 or 8 connectors) use only 12-volt rails — specifically in the +12V format. The division of +12V power into several separate rails is used for safety reasons — to reduce the current flowing through each individual wire and thus prevent excessive load and overheating of the wiring. However, some manufacturers do not specify the maximum current for separate +12V rails and only provide the overall value in the specifications; in such cases, this number is indicated in the "+12V1" section.
For more information on power rails in general, see the section "+3.3V". Here, it is worth mentioning that 12V is the most popular voltage among computer power connectors. It is used in almost all such connectors (with a few exceptions), and some plugs (such as the additional PCI-E power with 6 or 8 connectors) use only 12-volt rails — specifically in the +12V format. The division of +12V power into several separate rails is used for safety reasons — to reduce the current flowing through each individual wire and thus prevent excessive load and overheating of the wiring. However, some manufacturers do not specify the maximum current for separate +12V rails and only provide the overall value in the specifications; in such cases, this number is indicated in the "+12V1" section.
+3.3V +5V
The maximum power that the PSU is capable of delivering on the + 3.3V and + 5V power lines.
See "Maximum current and power" for details on power lines in general. Here we note that the power lines + 3.3V and + 5V are used both in the general connector for the motherboard (for 20 or 24 pins), and in specialized plugs — in particular, the SATA power connector (both) and Molex (only +5V, in addition to +12V). The power of these lines is a rather specific parameter, rarely required in fact; it is usually the same for both voltages, so it is indicated in the general clause.
See "Maximum current and power" for details on power lines in general. Here we note that the power lines + 3.3V and + 5V are used both in the general connector for the motherboard (for 20 or 24 pins), and in specialized plugs — in particular, the SATA power connector (both) and Molex (only +5V, in addition to +12V). The power of these lines is a rather specific parameter, rarely required in fact; it is usually the same for both voltages, so it is indicated in the general clause.














